Pre-health coursework at the University of Pennsylvania means Shayan has lived the full gauntlet — biology, biochemistry, physiology, pharmacology, and anatomy — and knows how to connect those disciplines into a coherent picture. He teaches science by grounding every concept in a concrete example, whether that's explaining cellular respiration through energy metabolism or walking through organ systems one function at a time.

A medical student at Jefferson, Nishad has spent years immersed in biology, chemistry, and anatomy — the core disciplines that make up most K-12 and introductory college science coursework. He excels at translating abstract concepts like cellular respiration or chemical bonding into concrete, visual explanations that click on the first try. Students walk away understanding the "why" behind each process, which makes exam questions far more predictable.

Studying human evolutionary biology gave Victoria a working knowledge of natural selection, genetics, anatomy, and ecological systems that most humanities-trained tutors simply don't have. She connects scientific concepts to real-world examples — like how archaeological site stratigraphy illustrates geological principles — making abstract ideas tangible for students who struggle with textbook explanations.

A master's in environmental engineering means Kate didn't just study biology, chemistry, and physics — she used all three together to solve real problems like modeling water contamination or analyzing energy systems. That cross-disciplinary perspective makes her especially effective at showing students how scientific concepts connect rather than treating each unit as isolated material. Rated 4.9 by students.

Kevin's Philosophy, Politics, and Economics major at Penn requires him to constantly evaluate claims against evidence — the same core skill students need when forming hypotheses, interpreting lab data, and explaining why an experiment turned out the way it did. His 34 ACT confirms he can handle the quantitative and reading-heavy demands of science material, and his statistics background means he's comfortable walking students through graphing relationships and drawing conclusions from data sets.

An economics degree means Simon spent years building and testing models — controlling for variables, interpreting data sets, and figuring out whether the numbers actually support a conclusion or just look like they do. That same process underpins every science class, from setting up a controlled experiment to reading a graph and explaining what it reveals. His 1540 SAT confirms the quantitative and analytical chops to back it up.

A Yale biochemistry degree, NIH lab research, and medical school at Penn give Matthew an unusually deep bench to draw from when teaching science — whether the topic is cell biology, chemical reactions, or physics concepts like energy and motion. He connects textbook material to real experiments and clinical examples that make abstract ideas click.

Two years teaching algebra and geometry at a charter high school meant Wamweni was constantly translating abstract concepts into concrete, observable examples — the same skill that makes science material stick when students need to connect formulas to real phenomena like motion, energy, or chemical reactions. Her math tutorial program also built her instinct for diagnosing exactly where a student's quantitative reasoning breaks down, which is often the real barrier in science courses that require graphing, measurement, and data analysis. Rated 5.0 by students.

A biology degree from UChicago and hands-on clinical training through Penn's nursing program give Kristin an unusually wide range in science — from cellular mechanisms and microbiology to human physiology and pharmacology. She connects abstract scientific concepts to concrete examples, making topics like enzyme kinetics or gas exchange click rather than feel like vocabulary lists to memorize.

Certified in both biology and chemistry and currently teaching biochemistry and chemistry at a Philadelphia magnet school, Kathleen covers an unusually wide swath of science in a single week. She unpacks everything from cellular respiration and genetics to reaction stoichiometry and thermodynamics, adjusting the depth based on whether a student needs middle school foundations or college-level rigor.

A biological engineering degree from Cornell and ongoing biomedical engineering graduate work mean Mary lives in the overlap of biology, chemistry, and physics daily. She's especially strong at breaking down life science topics — cell biology, genetics, body systems — and tying them to the kind of quantitative reasoning that makes science click rather than feel like a list of vocabulary words.

Hannah's strongest credentials are in writing and history, not science — but her 1590 SAT required mastering evidence-based reasoning, data interpretation, and the kind of careful graph reading that science coursework leans on heavily. She's a good fit for students who understand the concepts but struggle to articulate scientific explanations clearly, since translating complex ideas into precise language is exactly what an MFA in Creative Writing trains you to do.

Engineering is applied science, and Steve's dual background in mechanical and electrical engineering means he can teach physics concepts like energy conservation, wave behavior, and circuit analysis with real-world context from projects he's actually built. He breaks down scientific reasoning — forming hypotheses, interpreting data, identifying variables — using the same systematic thinking that drives his day-to-day work as a practicing engineer.

While science isn't Katherine's core specialty, her quantitative background at Wharton and her experience tutoring younger students in STEM subjects make her a solid fit for elementary and middle school science. She's especially effective at breaking down data interpretation, unit conversions, and the math-heavy portions of science coursework.

Degrees in neuroscience and human nutrition mean Matt doesn't just teach science — he's lived inside it, from wet-lab biochemistry to clinical physiology research. He breaks down everything from cellular respiration and enzyme kinetics to organ system integration, choosing the depth and vocabulary that match each student's course level. Rated 5.0 by students.

A physiological sciences degree from UCLA and current medical school training mean Annie lives in science daily — from cellular respiration and genetics to the physics of how body systems maintain homeostasis. She breaks down scientific reasoning into clear steps, teaching students how to read data, form hypotheses, and connect concepts across biology, chemistry, and earth science. Rated 5.0 by students.

A liberal arts education forces you to learn how to learn — and Kirstie's Masters in Education means she also knows how to teach that process, which matters in science when students need to move from memorizing vocabulary to actually understanding how concepts like ecosystems, forces, or chemical changes connect. She's particularly good at turning dense textbook reading into something students can organize and retain, drawing on the same reading comprehension and study skills strategies that earned her a 5.0 rating.

A biochemistry and biophysics degree means Zachary has spent serious time in every core science discipline — biology, chemistry, and physics — and understands how they interconnect. Whether a student is struggling with balancing chemical equations, drawing free-body diagrams, or tracing energy flow through an ecosystem, he explains the underlying logic rather than just walking through the textbook procedure.

Having studied Latin extensively — including four levels of coursework — Alessia can help students decode the Greek and Latin roots buried in scientific terminology, turning unfamiliar words like "photosynthesis" or "endothermic" into something parseable on sight. Her political science training at Penn also required interpreting data, evaluating competing claims, and constructing evidence-based arguments, which is essentially what a good lab report demands. She holds a 5.0 rating.

Hands-on lab work in reproductive biology gave Emma a researcher's instinct for how science actually operates — forming hypotheses, designing experiments, interpreting messy data. She brings that real-world perspective to foundational topics like the scientific method, cells, ecosystems, and basic chemistry. Students walk away understanding the reasoning behind concepts, not just the vocabulary terms on a study guide.

Molecular biology sits at the intersection of chemistry, physics, and life science, so Annabel's undergraduate training gives her a unusually broad scientific toolkit. Whether a student is struggling with cell energy pathways, Newton's laws, or how to interpret experimental data, she connects abstract concepts to concrete examples from her own lab coursework.

While science isn't her core specialty, Stephanie's structured approach to reading dense material translates directly to the challenge most students face in science courses: making sense of textbook chapters packed with unfamiliar terminology. She teaches students to extract key relationships from scientific texts and diagrams, turning overwhelming content into something they can actually retain and explain.

Covering everything from cellular respiration to stoichiometry in her biology and chemistry coursework, Rebecca teaches science as an interconnected system rather than isolated facts. She's rated 5.0 by students, and her strength is showing how a concept in one discipline — like energy transfer — threads through biology, chemistry, and physics simultaneously.

Claire's linguistics degree from Brown trained her to do exactly what science demands — observe patterns, form hypotheses about how systems work, and test those hypotheses against evidence. She's especially strong at helping students decode scientific terminology, since breaking words into morphemes and tracing Latin and Greek roots is literally what linguists do. Her 1590 SAT confirms she can handle the quantitative and analytical reasoning that science coursework requires.

Studying linguistics at Yale means William spends his days doing what science classes ask students to do — collecting data, testing hypotheses about how systems work, and revising explanations when the evidence doesn't fit. That analytical habit, paired with a 35 ACT, makes him especially effective at teaching students to interpret graphs, design controlled experiments, and articulate conclusions clearly rather than just restating results.

Five years teaching 8th graders means William has seen exactly which science concepts trip students up — especially when the task shifts from memorizing definitions to actually explaining how an experiment works or what a data table reveals. His English teaching background is a genuine asset here: much of middle and high school science boils down to reading dense passages carefully, interpreting visual information, and writing clear, evidence-based explanations. Rated 4.7 by students.

A computer science master's student with a philosophy undergraduate degree, Keenan brings a dual toolkit to science: the formal logic and hypothesis-testing rigor of philosophy, plus the data analysis and computational modeling skills from his CS work at Penn. He teaches students to treat every science problem like a debugging exercise — isolate what you know, test one variable at a time, and trace the logic until the answer holds up. Rated 5.0 by students.

Biomedical engineering at Yale means Jonathan doesn't just study science — he applies physics, biology, and chemistry simultaneously to solve design problems, from modeling fluid dynamics in blood vessels to analyzing biomechanical forces in prosthetics. That cross-disciplinary training makes him especially effective at showing students how scientific concepts connect rather than treating each unit as isolated material. Rated 5.0 by students.

Larkin's background spans both theoretical physics and hands-on mechanical engineering, so he can move fluidly between explaining abstract concepts like energy conservation and walking through real-world applications like force diagrams or circuit analysis. That dual perspective makes complex science topics feel concrete rather than intimidating. He's rated 5.0 by students.

Sarah's math and statistics training at Penn gives her a strong handle on the quantitative side of science — interpreting graphs, setting up equations from experimental data, and understanding statistical significance. She breaks down science problems by teaching students to read the data first and identify what's actually being measured before jumping to formulas.

A biology degree means Ade has done the actual benchwork — dissections, microscopy, lab reports, the full sequence from hypothesis through data collection to conclusion — so science tutoring draws on firsthand experience rather than abstract knowledge. He's especially strong on the life science side, connecting topics like cell structure, genetics, and ecology to the underlying mechanisms that make them make sense. His 34 ACT confirms he can handle the physical science and data-interpretation angles just as comfortably.

Bench genetics research and pre-med coursework at Penn gave Selamawit a deep, hands-on understanding of biology, chemistry, and experimental design. She unpacks scientific concepts — cell division, chemical reactions, the scientific method — by connecting them to real lab scenarios, making abstract textbook diagrams feel tangible and logical.

A biology degree from Wheaton College and a medical doctorate from Penn mean Daniel has studied science at virtually every level — cellular and molecular biology, chemistry, genetics, physiology, microbiology, and immunology. He unpacks scientific concepts by tracing cause-and-effect chains rather than asking students to memorize isolated facts. Whether a student needs to understand the water cycle or cellular respiration, he connects each piece to the bigger system it belongs to.

Having studied physics through coursework in thermodynamics, astrophysics, and special relativity, Erik brings genuine lab-science fluency to topics like energy conservation, wave behavior, and forces — not just textbook definitions but the quantitative reasoning underneath them. He teaches students to connect equations to physical intuition, so a free-body diagram or a velocity-time graph actually tells a story instead of looking like abstract symbols on a page.

A doctoral music student who also tutors physics, calculus, and SAT math, Jackson brings genuine quantitative fluency to science — he's not approaching it from the humanities side alone. He teaches students to isolate variables and trace cause-and-effect in physical systems the way he'd analyze harmonic structure: methodically, layer by layer, until the underlying logic is obvious. His 1460 SAT confirms the analytical horsepower behind that approach.

Cindy scored a 35 on the ACT, which includes a Science section that's really a test of data interpretation — reading graphs quickly, comparing experimental setups, and spotting trends across conflicting results. That experience makes her especially effective at teaching students how to pull meaning from tables and figures without getting bogged down in content they haven't formally studied yet. She holds a 5.0 rating from students.

Biomedical engineering sits at the intersection of physics, chemistry, and biology, so Spencer tackles science topics with a cross-disciplinary instinct that connects, say, fluid dynamics to how blood moves through arteries. Whether a student needs to understand Newton's laws or cell structure, he grounds abstract concepts in real systems that make them click.

Alina's international trade and management studies required working through applied statistics, data-driven market analysis, and quantitative modeling — skills that translate well when students need to interpret graphs, calculate rates, or make sense of experimental data in science class. She's particularly good at teaching students to read a data table and articulate what it actually tells them, approaching it the same way she'd break down a trade report: one variable at a time.

From cell biology and organic reaction mechanisms to Newtonian mechanics, Abhinav covers the full spread of core sciences with a biology degree from Stanford backing him up. He's especially sharp at showing how concepts overlap across disciplines — like how thermodynamics principles in chemistry reappear in cellular metabolism — so students build understanding that carries from one class to the next.

Devan's political science research at Penn — particularly studying violence against women — requires the same skills that trip students up in science class: designing studies with proper controls, collecting and interpreting data, and distinguishing what evidence actually proves from what it merely suggests. That interdisciplinary training means she can walk students through the scientific method as someone who uses it in her own work, not just as a set of textbook steps to memorize.